|Publication number||US7762269 B2|
|Application number||US 11/143,176|
|Publication date||Jul 27, 2010|
|Filing date||Jun 2, 2005|
|Priority date||Jun 2, 2005|
|Also published as||CA2589056A1, CA2589056C, CA2711178A1, CN101080183A, CN101080183B, DE602006018920D1, EP1898745A2, EP1898745B1, US20060272666, US20100269846, WO2006130644A2, WO2006130644A3|
|Publication number||11143176, 143176, US 7762269 B2, US 7762269B2, US-B2-7762269, US7762269 B2, US7762269B2|
|Inventors||Peter Jonathan Wyatt, David Edward Wilson, Donald Frank Rainey, Mark Robert Weinkam, Angela Michele Fabula, Thomas Elliot Rabe, Martin Alfred Mishkin|
|Original Assignee||The Procter & Gamble Company|
|Export Citation||BiBTeX, EndNote, RefMan|
|Patent Citations (120), Non-Patent Citations (8), Referenced by (7), Classifications (11), Legal Events (2)|
|External Links: USPTO, USPTO Assignment, Espacenet|
The present disclosure generally relates to cosmetic applicators and, more particularly, to applicators for applying cosmetic material to keratinous fibers, such as eyelashes.
Various types of cosmetic applicators are known in the art. Brushes for applying mascara to eyelashes, for example, generally include a stem having a first end attached to a handle. An applicator head, such as brush bristles, are coupled to a second end of the stem. In use, the brush head loaded with mascara is applied to the eyelashes.
Mascaras come in a variety of forms including cakes or blocks, creams, gels, semi-solids, and low viscosity liquids. Cake mascaras were originally the most popular form consisting of at least 50% soap with the pigment mixed in with the soap cakes. With a wet brush, the mascara could be lathered and then applied to the lashes resulting in a satisfactory smooth application, but with a thin cosmetic coating on the individual lashes. The primary drawback was that the film on the lashes was very water soluble and prone to smudging and running on the skin around the perimeter of the eye. As a resolution, waxes were incorporated into mascara compositions thereby improving their water-resistant properties. Unfortunately, the smoothness of the application was adversely affected. That is, as the viscosity of the mascara formulation increased, it became increasingly harder to apply, messier, and yielded less separation of the lashes.
With the advent of mascara applicators a means for expanding formulation options for mascaras came into existence. Creams, for example, combined with a twisted metal wire brush or wand application provided a convenient use and composition that enabled the incorporation of film formers to improve the rubbing resistance and flexibility of mascara films. This also allowed a convenient implement to separate and build the lashes. Today, there are several types of mascara formulations including anhydrous, water-in-oil emulsions, oil-in-water emulsions, and water-based mascaras that contain little or no oil phase. The emulsions, previously mentioned, may also be multiple emulsions for example, but not limited to water-in-oil-in-water emulsion. Many mascaras are water-based emulsions and contain emulsified waxes and polymers usually with pigments dispersed into the water phase. The water provides curling and application properties, while the waxes and polymers create the transfer resistant end mascara film on the lash that is colored by the pigments. Anhydrous and water-in-oil mascaras are generally referred to as waterproof mascaras, as they have superior transfer resistance, especially to water. Their high content of hydrophobic materials creates a film which contains very little materials that allow water to break up the film and make it wear away. In the case of the water-in-oil mascaras, the internal droplets of water can deliver water-soluble/dispersible materials that would otherwise not be able to be incorporated into an oily phase. The water-based mascaras are typically gelled water with a polymer to create deposition and hold of the lashes. These mascaras usually do not have colorants, although colorants can be added in.
Consumers expect particular properties from their mascara products such as adhesion to the lashes, lengthening/curling of the lashes, lack of smudging or flaking, thick lashes, and good separation of clumps of lashes. Particularly, the desire is for long, luscious, full, soft, and separated lashes. Mascaras generally distribute a smooth and relatively thin (coating thickness) film over the eyelashes producing a satisfactory array of reasonably separated lashes that are darker and thicker than bare lashes, making the eyes more noticeably beautiful. It is well understood that some lash clumping will naturally occur since lashes are arranged in both rows and columns above and below one's eye. Therefore, “separated” lashes are not necessarily envisioning every lash as a single entity. Mascara that is deemed by a user to separate well will leave more clumps of lashes than mascara that is deemed not to separate lashes well. Typically, the deposition of mascara has a coating that is 5-15 microns thick. Many “volumizing” mascaras, however, are messy and clumpy and tend to clump too many lashes together in a thick, less separated look which gives the look of fewer lashes.
Conventional mascara brushes typically require manipulation of the handle or other member, and often require repeated passes of the brush across the eyelash, to completely and uniformly coat each eyelash with mascara while maintaining or promoting separation of the eyelashes from one another. To coat the entire eyelash, for example, a user may move the brush in a vertical direction to ensure that the entire eyelash is covered. In addition, a user may rotate the brush to place different portions of the brush head in contact with the eyelash, depending on the desired amount of mascara to be applied to the eyelashes. Still further, a user may also reciprocate the brush in a horizontal direction to promote separation of the eyelashes and/or to ensure better coverage of the eyelashes. Consequently, a user must provide the motive force for applying the brush to the eyelashes and must have sufficient dexterity to manipulate the brush as needed to cover the eyelashes in a satisfactory manner. In addition, mascara application with conventional brushes requires several brush passes and therefore is inefficient.
More recently, rotating mascara brushes have been proposed in which a stem of the brush is supported for rotational movement with respect to the handle. The force for rotating the stem and attached brush head may be either manual, such as for the brushes described in U.S. Pat. No. 6,145,514 to Clay and U.S. Pat. No. 5,937,871 to Clay, or may be electrically driven, such as the brush described in U.S. Pat. No. 6,565,276 to Diaz. While these rotating stem brushes eliminate the need for a user to roll the handle during application of mascara, they do not optimally coat and separate the eyelashes. Furthermore, these brushes are limited to simple, unidirectional rotation of the brush head, and therefore are not capable of performing certain, potentially more complex, application techniques.
In addition, various types of applicators have been designed which are adapted to impart different types of eyelash effects. For example, a first brush design may promote separation of eyelashes while a second brush design promotes volume or coverage of the eyelashes. Consequently, a user must use two separate brushes or, if a single brush head is provided with both types of brush designs, the user must reposition the handle to use both sides.
The present disclosure relates to apparatus for applying a cosmetic. For example, the apparatus may include a handle, a stem defining a longitudinal stem axis and having a first end coupled to the handle and a second end, and an applicator head coupled to the stem second end and supported for rotation relative to the handle. An actuator may be operatively coupled to the applicator head for moving the applicator head in a rotational oscillating motion, in which the applicator head automatically rotates in both a first rotational direction and a second rotational direction in response to operation of the actuator.
Another embodiment relates to an apparatus for applying a cosmetic having a handle, a stem defining a longitudinal stem axis and having a first end coupled to the handle and a second end, and an applicator head coupled to the stem second end and supported for rotation relative to the handle, the applicator head defining an applicator head profile. An actuator is operatively coupled to the applicator head for moving the applicator head in at least a first rotational direction, wherein the applicator head profile radially translates during rotation in the first rotational direction.
A further embodiment relates to an apparatus for applying a cosmetic including a handle, a stem defining a longitudinal stem axis and having a first end coupled to the handle and a second end, and an applicator head coupled to the stem second end and supported for rotation relative to the handle. An actuator is operatively coupled to the applicator head and adapted to move the applicator head in at least a first rotational direction through an applicator head angle of rotation less than 360 degrees in response to actuation.
Yet another embodiment relates to an apparatus for applying a cosmetic having a handle, a stem defining a longitudinal stem axis and having a first end coupled to the handle and a second end, and an applicator head coupled to the stem second end and supported for rotation relative to the handle. An actuator is operatively coupled to the applicator head for moving the applicator head in at least a first rotational direction at a rotational speed, wherein the rotational speed varies with respect to an angle of rotation of the applicator head.
Still further, another embodiment relates to an apparatus for applying a cosmetic including a handle, a stem defining a longitudinal stem axis and having a first end coupled to the handle and a second end, and an applicator head coupled to the stem second end and supported for rotation relative to the handle. The applicator head includes a plurality of protrusions, wherein each protrusion defines a profile through which at least a portion of the protrusion passes during rotation of the stem. The protrusions are spaced to define gaps between profiles of adjacent protrusions.
While the specification concludes with claims particularly pointing out and distinctly claiming the subject matter that is regarded as the present invention, it is believed that the invention will be more fully understood from the following description taken in conjunction with the accompanying drawings. None of the drawings are necessarily to scale.
A cosmetic applicator having an applicator head adapted for use on a rotating stem is disclosed herein. The applicator head includes protrusions that are spaced sufficiently to allow keratinous fibers such as eyelashes to penetrate therebetween. In accordance with other embodiments, a cosmetic applicator capable of complex movements such as variable speed rotation, oscillating rotation, oscillating movement along a stem axis, and vibrational movement of the applicator head are disclosed herein for improving coverage and separation of the keratinous fibers. The applicator is particularly suited for applying mascara (which may be any one of the materials noted above, or combinations thereof) to eyelashes.
As illustrated in partial schematic form in
In operation, a user may actuate the switch 24 to selectively deliver potential energy from the battery 22 to the motor 18. In response, the motor may rotate the motor shaft and stem 16 attached thereto. As a result, the applicator head also rotates. While the embodiment illustrated in
The applicator head 20 includes one or more elements projecting from the stem for separating and applying cosmetic to keratinous fibers, such as eyelashes. While the applicator element may be provided as a conventional twisted wire brush, we have found it preferable to use molded protrusions. As used herein, a “protrusion” is a member that extends generally away from or into a base surface of the applicator head. As such, a “protrusion” provides a localized area that is not continuous with the surrounding base surface. While protrusions typically extend outwardly away from the base surface, they may also be inverted to project inwardly to form a recess.
In the illustrated embodiment, the molded protrusions are formed as elongate fingers 30 having a base end coupled to the stem 16 and an opposite free end. In the illustrated embodiment, the cross-sectional area of each finger 30 gradually narrows from the base end to the free end, and each finger is oriented to extend substantially perpendicular with respect to an axis 32 of the stem 16. It will be appreciated that the fingers may diverge from the base so that the tip is larger, or the fingers may not taper at all but instead have substantially consistent dimensions. Furthermore, the fingers may extend at oblique angles with respect to the stem axis 32.
The fingers 30 are spaced along the stem 16 and have a free end sized such that each finger 30 may penetrate between adjacent keratinous fibers. The spacing allows the fingers 30 to be inserted between fibers even as the applicator head 20 is rotated, thereby maximizing the fiber surface area engaged by each finger 30 and promoting separation of adjacent fibers. The protrusions should be spaced far enough to allow eyelashes to penetrate between adjacent protrusions yet close enough to separate adjacent eyelashes. Accordingly, the gap between adjacent protrusions may be approximately 0.2 to 3.0 mm.
While each of the protrusions illustrated in
While the disc-shaped protrusion 30 is illustrated in
The cross-sectional shape of the protrusions 30 may be varied without departing from the scope of this disclosure. As illustrated in
The ends of the protrusions may be formed with various shapes or include various structures. Where appropriate, the protrusions may be subjected to treatment for forming respective end balls 50 as shown in
The protrusions may have an exterior surface particularly adapted to transfer cosmetic material from a base of the protrusion to a free end. For example, each protrusion may include an exterior coating having a low surface energy to more readily transfer product to the lashes. The coating may be particularly suited for use with cosmetic material, such as the mascara materials noted above in the background.
In addition to the elongate profile illustrated in
The applicator head 20 may include a variety of protrusions having different shapes or displaying different properties. For example, the applicator head 20 may include a first set of protrusions having a first cross-sectional shape and a second set of protrusions having a second cross-sectional shape. Also, the first set of protrusions 30 a may have a first stiffness while the second set of protrusions 30 b has a second, different stiffness. By using protrusions of varying stiffness, rotation of the applicator head will cause the more flexible protrusions to deflect to a greater degree than the stiffer protrusions, as illustrated in
The stem 16 may have a uniform, circular cross-section or a non-circular shape such as the polygonal, e.g. triangular section shown in
The stem 16 may be circular and have protrusions of uniform length to define a circular applicator head profile 64, as shown in
Alternatively, the shape of the stem 16 and/or the length and spacing of the protrusions may be varied to define a non-circular applicator head profile. For example, the length of the protrusions may alternate between short and long lengths around the circumference of the stem 16 to define a cross-sectional applicator head profile 66 having recesses, as shown in
In addition to varying the circumferential spacing of the protrusions, the axial spacing of the protrusions along the applicator head 20 may also be varied.
The applicator head 20 may include patterns of protrusions having different lengths. As shown in
The applicator may include visible indicia to identify portions of the applicator having different characteristics. An asymmetrical applicator head, for example, may include a first area having protrusions with a first characteristic and a second area having protrusions with a second characteristic. The applicator head may have a first visible indicia, such as color, texture, text, or other visually discernable quality, to identify the first area and a second visible indicia to identify the second area. The different visible indicia communicate to a user that the different areas have protrusions with different characteristics, such as relative flexibilities, lengths, or motions. The visible indicia may be provided as different colors in the first and second areas. For example, the protrusion tip, entire protrusion body, or applicator head surface including protrusions associated with the first area may have a first color, while similar structure in the second area has a second color. Similarly, the first area may have a first color scheme, such as an applicator head surface with a first color and protrusions or portions thereof with a second color, while the second area has a second color scheme, such as an applicator head surface with a third color and protrusions or portions thereof with a fourth color.
As noted above, the motor 18 is coupled to the stem 16 to rotate the applicator head 20. The motor 18 preferably rotates the applicator head at a rotational speed suitable for applying mascara to keratinous fibers. Accordingly, it has been found that a speed of approximately 1 to 200 rpm may be used, with the range of approximately 5 to 100 rpm being preferable and the range of approximately 10 to 60 rpm being most preferable for certain applications. The motor speed may be fixed or may be adjustable within the appropriate range.
The optional controller 26 may be provided for producing more complex movements of the applicator head. For example, the controller 26 may provide a dynamic speed signal to the motor to automatically adjust the rotational speed of the applicator head. The dynamic signal may generate a generally repeating speed pattern, such as a varying speed according to the degrees of shaft rotation, as illustrated by the graphs shown in
The motor may be reversible to facilitate use on eyelashes associated with both the left and right eyes. It is often desirable to apply mascara using an applicator movement that begins at a base of the eyelash and progresses toward a free end. Users often hold the applicator 20 in a hand associated with the same side as the eye (i.e., the right hand to apply mascara to the right eye and the left hand to apply mascara to the left eye). Because the orientation of the applicator changes as the applicator is transferred between hands, a reversible motor advantageously allows the user to operate the applicator in the desired direction for both eyes.
When providing a reversible motor to rotate the applicator head in either direction, it is advantageous to control how a user operates the motor so that the applicator head spins in the anticipated and desired direction. While a simple toggle switch with appropriate labels may be sufficient, it may be more desirable to limit the user's ability to operate the applicator only in the desired direction.
As shown in
In the alternative embodiment illustrated at
Still further, the applicator may be adapted to operate only in the desired direction when oriented in a certain position, such as when held to apply cosmetic to either the left or right eye. For example, the applicator may have a motor controlled by a mercury switch which reverses the polarity of the motor according to its position and the contacts it makes with the motor. The applicator handle may be shaped such that the mercury switch causes motor rotation in a first direction when held in position near the left eye and in a second, opposite direction when held in position near the right eye.
The motor 18 may also be controlled to execute a fixed degree of rotation each time the switch 24 is actuated. For example, the motor 18 may execute a quick rotation of the applicator head 20 through a predetermined angle of rotation to present a different side of the applicator head 20 toward the user. The predetermined angle of rotation may generally be approximately 0 to 270 degrees, with approximately 120 to 240 degrees being preferred and approximately 180 degrees being most preferred. This is of particular benefit where the applicator head includes sections of varying protrusion patterns, such as an applicator head having a first section with protrusions arranged to promote separation of lashes and a second section with protrusions arranged to provide volume. The quick, fixed rotation of the applicator head 20 allows a user to switch between the separator and volume sections of the applicator head simply by actuating the switch 24, without manipulating or repositioning the applicator in the hand.
In accordance with certain embodiments, the applicator head is driven in a rotating oscillation movement, defined herein as automatic, bidirectional rotation. Accordingly, the applicator head 20 alternates between forward and reverse rotation upon actuation of the switch 24. Both the forward and reverse rotation may be performed at a static speed or a dynamic speed, as with the single direction rotation described above. In addition, the forward and reverse rotational speeds may be different. For example, the reverse rotational speed may be relatively slower to facilitating transfer of cosmetic from the applicator head 20 to the keratinous fibers, while the forward rotational speed may be relatively faster to promote separation of the keratinous fibers.
The stem may be rotated in the forward and reverse directions during the same or different periods of time. For example, the forward and reverse rotations may each take place for approximately 1 second. Alternatively, the stem may be rotated in the forward direction for approximately 2 seconds and in the reverse direction for approximately 0.5 seconds. The foregoing time periods are merely exemplary and are provided for clarity of understanding only, as it will be appreciated that other time periods may be used, whether the forward rotation period is greater than, less than, or equal to the reverse rotation period, without departing from the scope of this disclosure.
The applicator 10 may produce an applicator head motion that simultaneously rotates and translates about an axis of rotation. As illustrated in
Various types of actuators may be used to operate the applicator 10. For example, a mechanical device for storing potential energy, such as a spring or twisted rubber band, may be coupled to the stem 16 for producing rotational movement. Alternatively, an electrical device such as the motor 18 may be powered by a battery 22 to rotate the stem 16. The battery may be provided in the handle housing 14 as illustrated in
Some examples of applicators capable of producing rotational applicator head movement will now be described. An applicator 90 capable of simple rotation in one or both directions is schematically illustrated in
Another applicator 130 is illustrated in FIGS. 73 and 74A-D in which motor rotation in a single direction is converted into a rotating oscillation motion. The applicator 130 includes a handle 132, a stem 134, and an applicator head 136. A motor 138 and battery 140 are operatively coupled together and disposed inside the handle 132. The motor 138 includes a motor shaft 142 that is mechanically coupled to the stem 134 by a transmission coupling 144. More specifically, the transmission coupling 144 includes a motor disc 146 coupled to the rotating motor shaft 92. The motor disc 146 includes a pin 148 sized for insertion into a slot 150 formed in a connecting rod 152. The connecting rod 152 is pivotably coupled to a first end of an idler rod 154. A second end of the idler rod 154 is fixed to the stem 134, so that the idler rod 154 and stem 134 rotate together. A spring 156 extends between the handle 132 and the idler rod 154 to bias the idler rod 154 in a first direction. In operation, the pin 148 may first be positioned adjacent a lower end of the slot 150 as shown in
Another exemplary embodiment of an applicator 160 capable of driving an applicator head 162 in a rotational movement is illustrated in
Another further exemplary embodiment of an applicator 180 is illustrated in
It is also advantageous to provide an applicator capable of producing axial translation of the applicator head to assist with eyelash coverage, separation, or other function associated with the application of mascara to eyelashes.
The axial motion provided by the applicator 210 may be characterized by the frequency of movement of the applicator head 216, the axial distance traveled by the applicator head 216, and the symmetry of the speed at which the applicator head moves during the forward and reverse components of the axial movement. The frequency of movement is defined as the number of times per second (Hz) that the applicator head 216 moves back and forth through one complete cycle. In general, frequencies of approximately 0.5 to 1000 Hz are desired, with a range of approximately 1 to 300 Hz being preferred and a range of approximately 2 to 200 Hz being most preferred. The distance traveled by the applicator head 216 during the axial movement is defined as the displacement distance between the fully extended and fully retracted positions of the applicator head. In general, a distance of approximately 0.1 to 10 mm is desired, with a range of approximately 0.25 to 8 mm being preferred and a range of approximately 0.5 to 5 mm being most preferred. Axial motion is typically along a line substantially parallel to the stem axis. This is in contrast to vibrational motion, which may be in an axial, radial, orbital or other direction. Also, axial motion typically has a frequency nearer the lower range limits and a displacement distance near the upper range limits, while vibrational motion typically has a higher frequency and lower displacement distance. Despite these differences, many of the embodiments described herein are capable of selectively generating both axial motion and vibrational motion.
Speed symmetry describes the relative time taken for the forward stroke versus the reverse stroke. In general, it is desirable to have the ratio of the forward stroke speed to the reverse stroke speed within the range of approximately 1:10 to 10:1, with a range of approximately 1:3 to 3:1 being preferred and a range of approximately 1:2 to 2:1 being most preferred.
A more complex axial motion may be achieved by pausing the motion at any point during the cycle. For example, the axial motion may momentarily stop at the ends of both a forward stroke and a reverse stroke. The period during which the motion is stopped may range from being almost instantaneous to an appreciable delay, particularly when compared to the time it takes to complete a forward or reverse stroke. The time period during which the axial motion is stopped may range from approximately 0.01% to 1000% of the forward or reverse stroke time.
An exemplary embodiment of an applicator 230 capable of producing a composite motion including both rotational and axial oscillation is illustrated in
While the foregoing embodiment discloses a simple on/off switch, it will be appreciated that the switch may require continuous pressure from the user to remain in the on position. Furthermore, the switch may be provided as a potentiometer to vary voltage supplied to the motor, thereby to provide a variable applicator head motion.
Another exemplary embodiment of an applicator 260 capable of moving an applicator head 262 in an axial direction is illustrated in
Yet another exemplary embodiment of an applicator 280 for producing an axial applicator head movement is illustrated in
A still further exemplary embodiment of an applicator 310 for producing an axial applicator head motion is illustrated in
An applicator 400 particularly suited to generate a vibrating applicator head is illustrated at
An applicator 420 capable of producing a composite vibrational and rotational motion is illustrated at
An applicator 450 capable of producing a composite applicator head motion including one or more vibrational, radial, and rotational components is illustrated in
In the embodiments illustrated in
While some of the foregoing embodiments produce a vibrational applicator head movement, any of the applicators described herein may be modified to include a vibration generator to provide sensory feedback to the user. Such a vibration generator may be coupled, either rigidly or resiliently, to the handle for producing a tactile vibration. It has been found that vibrations produced within the range of 10 Hz to 6 kHz can be sensed by the hand of a typical user.
The stems provided in the embodiments disclosed herein may be substantially rigid or substantially flexible as needed. Certain embodiments, such as those having a stem with a groove that engages projections on the housing to transfer axial stem movement into rotational movement, may perform better with a more rigid stem. Other embodiments, such as those that produce a vibrational head motion, may benefit from a more flexible stem. In the embodiments using stems with greater flexibility, a rigid sleeve may be coupled to the housing and extend around at least a portion of the stem to support the stem as desired.
Axial movement of the applicator head may be performed at frequencies which enhance distribution of cosmetic material to the ends of the protrusions. An applicator head 340 may include protrusions 342 that flex in response to axially downward and upward movement, as illustrated in
An axially moving applicator head 350 may include protrusions of varying flexibility or stiffness. As illustrated in
The shape of each protrusion may also be adapted for use in an axially moving applicator head.
The applicator may include certain ancillary features to enhance operation or user satisfaction. For example, the applicator may further include a thermal source to apply heat to the applicator head, thereby to promote curl and lift of the lashes. The applicator may include a sound circuit to generate a noise during operation, thereby to alert the user when the applicator is active. Similarly, the applicator may include a secondary vibration source to provide a tactile indication to the user that the applicator is operating, and to potentially enhance the user's perception of the effectiveness of the applicator.
In addition to the electrical and mechanical actuators disclosed herein, the force for applicator head movement may be provided by sound waves. For example, a piezocrystal may be provided for generating sound waves that vibrate the applicator head.
As illustrated in
An applicator 390 may include first and second stems 392, 394 extending from opposite ends of a handle 396, as shown in
An applicator may have an applicator head or combined applicator head and stem that may be independently removable from the handle to allow a variety of customized applicators to be used with the same handle. The removable head or head/stem combination may include a locking mechanism. The applicator head may further be adapted to provide a combination of both moving (i.e., rotating, axial moving, etc.) and stationary protrusions.
An applicator 600 having stationary and moving protrusions is illustrated in FIGS. 96 and 97A-C. The applicator 600 includes a handle 602. A hollow sleeve 604 is coupled to the handle 602 and a stem 606 is disposed inside the sleeve 604. A first set of protrusions 607 is coupled to the sleeve 604 while a second set of protrusions 609 is coupled to the stem 606. A magnet 608 is coupled to the stem 606 by a spring 610, which may increase or dampen amplitude. An electromagnetic coil 612 is disposed inside the housing and capable of generating a magnetic field to attract or repel the magnet 608. A battery 614 and switch 616 are operatively coupled to the coil 612. In operation, the electromagnet periodically generates the magnetic field to axially oscillate the magnet 608. Movement of the magnet 608 is transferred to the stem 606 via the spring 610, thereby to move the second set of protrusions 609 relative to the first set of protrusions 607. The patterns and relative locations of the first and second sets of protrusions may vary, as illustrated in
All documents cited in the Detailed Description are, in relevant part, incorporated herein by reference; the citation of any document is not to be construed as an admission that it is prior art with respect to the present disclosure.
While particular embodiments of the present disclosure have been illustrated and described, it would be obvious to those skilled in the art that various other changes and modifications can be made without departing from the spirit and scope of the invention. It is therefore intended to cover in the appended claims all such changes and modifications that are within the scope of this disclosure.
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|Cooperative Classification||A46B2200/1053, A46B2200/106, A46B13/023, A46B9/021, A45D2200/207, A46B13/02|
|European Classification||A46B13/02A, A46B9/02A, A46B13/02|
|Sep 16, 2005||AS||Assignment|
Owner name: PROCTER & GAMBLE COMPANY, THE, OHIO
Free format text: ASSIGNMENT OF ASSIGNORS INTEREST;ASSIGNORS:WYATT, PETER JONATHAN;WILSON, DAVID EDWARD;RAINEY, DONALD FRANK;AND OTHERS;REEL/FRAME:016813/0976;SIGNING DATES FROM 20050722 TO 20050817
Owner name: PROCTER & GAMBLE COMPANY, THE, OHIO
Free format text: ASSIGNMENT OF ASSIGNORS INTEREST;ASSIGNORS:WYATT, PETER JONATHAN;WILSON, DAVID EDWARD;RAINEY, DONALD FRANK;AND OTHERS;SIGNING DATES FROM 20050722 TO 20050817;REEL/FRAME:016813/0976
|Dec 30, 2013||FPAY||Fee payment|
Year of fee payment: 4